Quantum Ramdom Number Generation (QRNG)

Quantum Ramdom Number Generation (QRNG)

True randomness is a challenge in deterministic systems, as conventional Random Number Generators (RNGs) can be predictable, leading to security vulnerabilities. Quantum Random Number Generation (QRNG) employs quantum effects to create true randomness that is inherently secure and unpredictable.

QRNG is crucial for industries like finance, telecommunications, and data protection. In finance, it ensures secure transaction processing and protects sensitive information. In telecommunications, QRNG enhances encryption protocols, safeguarding data in transit. For data protection, QRNG provides the randomness needed for robust cryptographic keys, ensuring the integrity and confidentiality of information. A high-quality entropy source is essential for both QKD and PQC, as no future cryptographic module can function without it.

Fraunhofer IPMS is a key innovator in the field of Quantum Random Number Generation (QRNG), delivering trusted, hardware-based quantum randomness for high-security applications. With deep expertise in quantum optics, photonic integration, and secure embedded systems, Fraunhofer IPMS develops true random number generators based on the fundamental unpredictability of quantum mechanics.

There is an option to purchase random numbers generated by us or our partners via an online portal.

Our projects

With a growing portfolio of national and international research collaborations, Fraunhofer IPMS plays a central role in building the next generation of quantum-secure technologies. For organizations seeking trusted, high-entropy randomness to future-proof their cryptographic systems, Fraunhofer IPMS is a recognized leader in QRNG development and deployment. Here are some of our current national and EU quantum random number generation projects.

 

Research Project

CBQD

Chip-based quantum random device

  • Development of integrated QRNC chip incl. post-processing with multi-Gbps bit rate
 

Research Project

Quant-ID

Quantum Secure Identities for a Digital Future

  • Development of post-quantum cryptography and secure user authorization

Fraunhofer IPMS Q-Dice

Fraunhofer IPMS is at the forefront of developing integrated, high-performance Quantum Random Number Generators (QRNGs) designed for various applications. Our Q-Dice solutions focus on delivering true randomness at high speeds, ensuring robust security for modern digital communications.

Key Facts

Development of integrated, high-performance QRNGs

  • Rates: ≥1 Gbit/s
  • All-in-one solutions
  • Integrated controller with post-processing & interface
  • Interfaces: Ethernet, USB, PCI-E
  • Certification according to BSI AIS 20/31 and NIST SP 800-22
  • Different form factors: PCI-E card, 19-inch rack, dongle, etc.
Fraunhofer IPMS QRNG Competencies
Fraunhofer IPMS QRNG Competencies

Applications for QRNG

In industries where data security, encryption, and simulation accuracy are vital, such as cybersecurity, finance, telecommunications, defense, and scientific research, QRNG provides a trusted foundation for cryptographic systems and secure applications. By delivering unbiased, high-entropy randomness, QRNG strengthens the resilience of security protocols and ensures robust protection against both classical and quantum cyber threats.

Access Management

Access management systems can securely transmit authentication data within a confined physical space, while Quantum Random Number Generation (QRNG) ensures that cryptographic keys and tokens are truly random and unguessable. Together, they enable highly secure, tamper-resistant, and location-specific access control systems.

Secure Communication

QRNG ensures that encryption keys are truly random and resistant to prediction, providing a strong foundation for quantum-safe data protection. Combined with conventional encryption protocols, it enables highly secure, tamper-proof communication channels that are resilient against both classical and future quantum attacks.

Encryption of Data

QRNG generates truly unpredictable random numbers for creating strong encryption keys, while secure transmission methods ensure that encrypted data is sent within a confined channel, minimizing the risk of interception. This approach guarantees robust end-to-end data encryption with enhanced physical and cryptographic security.

Quantum Computing

High-speed, low-latency communication between quantum computing nodes can be facilitated, while QRNG ensures truly random input. This enhances the performance and security of quantum computing applications.

Quantum Simulation

High-speed, low-latency communication for quantum simulations, with QRNG ensuring truly random input. This enhances the performance and security for quantum for simulations and cryptographic operation.